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Applying deep learning neural networks for automatic validation of forest management materials based on satellite imagery

https://doi.org/10.21266/2079-4304.2025.256.213-233

Abstract

The article discusses the use of deep learning neural networks to verify forest taxation indicators obtained during forest management. The authors have designed a technology for verifying forest management data based on the high-resolution optical satellite images processed applying neural networks. The initial data were images of the Melenkovskoye forestry district in the Vladimir region taken from Sentinel-2 satellites; atmospheric correction was performed with the Sen2Cor algorithm. The process of forest taxation interpretation of images was automated with the «Geotron. Forest Validation» software, a specialized geoinformation resource developed by the NC OMZ, FBU VNIILM and FGBU “Roslesinforg”. The TensorFlow and Keras libraries were used to train the neural network models; the training sample was based on the average pixel values within the boundaries of each plot for every channel. After training, the neural network determined forest characteristics for each section, and also gave the difference between the forest management documentation data and those calculated by the neural network; this allowed identifying deviations in the stock volume, forest density, and stands age. The model's operation demonstrated that a significant portion of inaccurate forest management data is typical for complex stands with several species in the composition, as well as for sparse maturing and mature stands with different species composition of the first tier. The study result showed that the accuracy of neural network training and operating directly depends on the of data amount, in particular, the number of sections for which training occurs. Acceptable results are obtained with a sections number exceeding 5,000 pieces. Considering this, the developed technology allows obtaining good results in validating forest management data on an area exceeding 10 thousand hectares, which is comparable to the average area of one forestry district in the central part of Russia.

About the Authors

D. Yu. Kapitalinin
Federal State Budgetary Institution «Roslesinforg»
Russian Federation

KAPITALININ Dmitry Yu. – Acting Director 

109316. Volgogradsky av. 45, build. 1



P. A. Tishchenko
JSC Russian Space Systems
Russian Federation

TISHCHENKO Pavel A. – Head of department, NC OMZ

27490. Dekabristov str. 51, build. 25. Moscow



V. M. Sidorenkov
All-Russian Scientific Research Institute of Forestry and Forestry Mechanization
Russian Federation

SIDORENKOV Viktor M. – PhD (Agriculture), Acting Director 

141202. Institutskaya str. 15. Pushkino. Moscow region



I. S. Achikolova
All-Russian Scientific Research Institute of Forestry and Forestry Mechanization
Russian Federation

ACHIKOLOVA Iuliia S. – Head of Forest Dynamics Laboratory 

141202. Institutskaya str. 15. Pushkino. Moscow region



D. O. Astapov
All-Russian Scientific Research Institute of Forestry and Forestry Mechanization
Russian Federation

ASTAPOV Daniil O. – Head of the Laboratory of forest management and forest taxation

141202. Institutskaya str. 15. Pushkino. Moscow region



O. V. Ryabtsev
All-Russian Scientific Research Institute of Forestry and Forestry Mechanization
Russian Federation

RYABTSEV Oleg V. – PhD (Agriculture), Head of Department of innovative technologies, implementation and forest design 

141202. Institutskaya str. 15. Pushkino. Moscow region



R. V. Shchekalev
St. Petersburg State Forest Technical University
Russian Federation

SHCHEKALEV Roman V. – DSc (Agriculture), Professor of Soil Science Department

194021. Institute per. 5. St. Petersburg



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Review

For citations:


Kapitalinin D.Yu., Tishchenko P.A., Sidorenkov V.M., Achikolova I.S., Astapov D.O., Ryabtsev O.V., Shchekalev R.V. Applying deep learning neural networks for automatic validation of forest management materials based on satellite imagery. Izvestia Sankt-Peterburgskoj lesotehniceskoj akademii. 2025;(256):213-233. (In Russ.) https://doi.org/10.21266/2079-4304.2025.256.213-233

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ISSN 2079-4304 (Print)
ISSN 2658-5871 (Online)